Abstract: A method of manufacturing a semiconductor device includes providing a semiconductor die and surrounding a sidewall of the semiconductor die with a dielectric material. The method further includes forming a post passivation interconnect (PPI) over the semiconductor die and electrically coupling the PPI with the semiconductor die. The method further includes molding the semiconductor die and the PPI into an integrated semiconductor package. The method further includes covering at least a portion of an outer surface of the integrated semiconductor package with a conductive layer, wherein the conductive layer is conformal to the morphology of the portion of the outer surface. Moreover, the method further includes forming a conductive path inside the integrated semiconductor package electrically coupled to the conductive layer and a ground terminal of the integrated semiconductor package.

Abstract: An integrated circuit (IC) structure includes a substrate, an interconnect structure, metal lines, a liner, a protecting layer, and a nitride-free passivation layer. The interconnect structure is over the substrate. The metal lines are over the interconnect structure. The liner is conformally formed on the metal lines. The protecting layer is over the liner. The nitride-free passivation layer continuously extends from the liner to the protecting layer and forms an interface with the liner.

Abstract: An integrated circuit (IC) structure includes a substrate, a transistor, an interconnect structure, a plurality of metal lines, an oxide liner, a passivation layer, and a nitride layer. The transistor is on the substrate. The interconnect structure is over the transistor. The metal lines is on the interconnect structure. The oxide liner is over the plurality of metal lines. The passivation layer is over the oxide liner and is more porous than the passivation layer. The nitride layer is over the passivation layer.

Abstract: An integrated circuit (IC) structure includes a substrate, a transistor, an interconnect structure, a plurality of metal lines, an oxide liner, a passivation layer, and a nitride layer. The transistor is on the substrate. The interconnect structure is over the transistor. The metal lines is on the interconnect structure. The oxide liner is over the plurality of metal lines. The passivation layer is over the oxide liner and is more porous than the passivation layer. The nitride layer is over the passivation layer.

Abstract: A method includes forming metal lines over an interconnect structure that is formed above transistors; depositing a liner layer over the metal lines using a first high density plasma chemical vapor deposition (HDPCVD) process with a zero RF bias power depositing a first passivation layer over the liner layer using a second HDPCVD process with a non-zero RF bias power; and depositing a second passivation layer in contact with a top surface of the first passivation layer using a third HDPCVD process with a non-zero RF bias power.

Abstract: A method includes forming metal lines over an interconnect structure that is formed above transistors; depositing a liner layer over the metal lines using a first high density plasma chemical vapor deposition (HDPCVD) process with a zero RF bias power depositing a first passivation layer over the liner layer using a second HDPCVD process with a non-zero RF bias power; and depositing a second passivation layer in contact with a top surface of the first passivation layer using a third HDPCVD process with a non-zero RF bias power.

Abstract: A method that enables building recognition via object detection and geospatial intelligence. The method includes detecting an object in an input image, wherein the object is located within a bounding area and extracting a physical location and a camera pose associated with the input image. The method also includes projecting a location coordinate of at least one entity onto the input image to obtain a projected point for the at least one entity, wherein the at least one entity is selected according to the physical location and camera pose associated with the input image and determining a nearest projected point to the bounding area. Finally, the method includes labeling the object within the bounding area with an entity name of the at least one entity associated with the nearest projected point.

Abstract: A multi-positionable computer comprises a user interface portion and a processing portion. The user interface portion includes a path along its back surface. The user interface portion can include a slot for receiving computer peripherals. The processing portion includes a connecting member for slidably coupling the processing portion to the user interface portion, and a rolling surface for contacting an external surface. The processing portion allows the user interface portion to be oriented in one of a plurality of positions along the path. In one orientation of the user interface portion, content is automatically displayed to align with the orientation of the user interface portion. In some embodiments, a virtual keyboard is displayed when the user interface portion is oriented in a predetermined position. The processing portion includes sides adjacent to the rolling surface. In some embodiments, ports and/or connections are accessible from at least one of the sides.

Abstract: A multi-positionable computer comprises a user interface portion and a processing portion. The user interface portion includes a path along its back surface. The user interface portion can include a slot for receiving computer peripherals. The processing portion includes a connecting member for slidably coupling the processing portion to the user interface portion, and a rolling surface for contacting an external surface. The processing portion allows the user interface portion to be oriented in one of a plurality of positions along the path. In one orientation of the user interface portion, content is automatically displayed to align with the orientation of the user interface portion. In some embodiments, a virtual keyboard is displayed when the user interface portion is oriented in a predetermined position. The processing portion includes sides adjacent to the rolling surface. In some embodiments, ports and/or connections are accessible from at least one of the sides.

Abstract: A multi-positionable computer comprises a user interface portion and a processing portion. The user interface portion includes a path along its back surface. The user interface portion can include a slot for receiving computer peripherals. The processing portion includes a connecting member for slidably coupling the processing portion to the user interface portion, and a rolling surface for contacting an external surface. The processing portion allows the user interface portion to be oriented in one of a plurality of positions along the path. In one orientation of the user interface portion, content is automatically displayed to align with the orientation of the user interface portion. In some embodiments, a virtual keyboard is displayed when the user interface portion is oriented in a predetermined position. The processing portion includes sides adjacent to the rolling surface. In some embodiments, ports and/or connections are accessible from at least one of the sides.

Abstract: An all-in-one computer system comprising: a base panel having a top surface and a bottom surface; and a screen panel coupled to and extending from the base panel, the screen panel comprising a screen. In some embodiments, a speaker system is coupled to the bottom surface of the base panel to provide a stand on which the base panel can be supported at an angle with respect to a resting surface, wherein the speaker system is configured to be adjusted along the bottom surface of the base panel to adjust the angle at which the base panel is supported. In some embodiments, a processing unit is communicatively coupled to the tilt sensor and to the screen, wherein the processing unit is configured to switch the screen between a touch mode and a non-touch mode based on the angle sensed by the tilt sensor.

Abstract: A multi positionable portable computer is able to be set in a variety of form factors. A user display portion comprising a screen is movably coupled to a processing portion having processing circuitry by a hinge having two pivot points. The two pivot points allow for the portable computer to be placed upright for presentations and the like or flat on a surface with the user display angled toward a user for interfacing with the portable computer. A movable optics module is provided that is positionable on a top surface of the display portion whether the display portion is in a landscape position or a portrait position.

Abstract: A multi-positionable computer comprises a user interface portion and a processing portion. The user interface portion includes a path along its back surface. The user interface portion can include a slot for receiving computer peripherals. The processing portion includes a connecting member for slidably coupling the processing portion to the user interface portion, and a rolling surface for contacting an external surface. The processing portion allows the user interface portion to be oriented in one of a plurality of positions along the path. In one orientation of the user interface portion, content is automatically displayed to align with the orientation of the user interface portion. In some embodiments, a virtual keyboard is displayed when the user interface portion is oriented in a predetermined position. The processing portion includes sides adjacent to the rolling surface. In some embodiments, ports and/or connections are accessible from at least one of the sides.

Abstract: Systems for, and methods of, enabling selective control of resource of an electronic device having a display by a controlling electronic device having a display are disclosed. Selective control of the electronic device is implemented by the electronic device via a set of control permissions for a detected controlling device, based upon an identifier of the controlling device. A controlling device can be any electronic device having a processor, a memory, a display and a communication module. Enabling selective control of the display of an electronic device having a display, by a personal computer, enables the personal computer to operate as a dual screen personal computer.

Abstract: An apparatus includes a processing portion and a user interface portion. The user interface portion is slidably coupled to the processing portion along a first axis. The apparatus also includes a stand that is hingedly coupled to the user interface portion. The stand rotates about a second axis orthogonal to the first axis. In some embodiments, the stand includes a U-bar. When the stand is coupled to the processing portion in an open position, the U-bar is able to receive cables therethrough. When the stand is coupled to the processing portion in a closed position, the stand is positioned within a recess, adapted to receive the stand, of the processing portion. In some embodiments, the user interface portion is removable from the processing portion.

Abstract: Systems for, and methods of, enabling selective control of resource of an electronic device having a display by a controlling electronic device wherein one device is housed within the other and each device having a display are disclosed. Selective control of the electronic device is implemented by the electronic device via a set of control permissions for a detected controlling device, based upon an identifier of the controlling device. A controlling device can be any electronic device having a processor, a memory, a display and a communication module. Enabling selective control of the display of an electronic device having a display, by a personal computer, enables the personal computer to operate as a dual screen personal computer.

Abstract: An apparatus includes a processing portion and a user interface portion. The user interface portion is slidably coupled to the processing portion along a first axis. The apparatus also includes a stand that is hingedly coupled to the user interface portion. The stand rotates about a second axis orthogonal to the first axis. In some embodiments, the stand includes a U-bar. When the stand is coupled to the processing portion in an open position, the U-bar is able to receive cables therethrough. When the stand is coupled to the processing portion in a closed position, the stand is positioned within a recess, adapted to receive the stand, of the processing portion. In some embodiments, the user interface portion is removable from the processing portion.

Abstract: A multi-positionable computer comprises a user interface portion and a processing portion. The user interface portion includes a path along its back surface. The user interface portion can include a slot for receiving computer peripherals. The processing portion includes a connecting member for slidably coupling the processing portion to the user interface portion, and a rolling surface for contacting an external surface. The processing portion allows the user interface portion to be oriented in one of a plurality of positions along the path. In one orientation of the user interface portion, content is automatically displayed to align with the orientation of the user interface portion. In some embodiments, a virtual keyboard is displayed when the user interface portion is oriented in a predetermined position. The processing portion includes sides adjacent to the rolling surface. In some embodiments, ports and/or connections are accessible from at least one of the sides.

Abstract: A multi positionable portable computer is able to be set in a variety of form factors. A user display portion comprising a screen is movably coupled to a processing portion having processing circuitry by a hinge having two pivot points. The two pivot points allow for the portable computer to be placed upright for presentations and the like or flat on a surface with the user display angled toward a user for interfacing with the portable computer. A movable optics module is provided that is positionable on a top surface of the display portion whether the display portion is in a landscape position or a portrait position.

Abstract: Systems for, and methods of, enabling selective control of resource of an electronic device having a display by a controlling electronic device having a display are disclosed. Selective control of the electronic device is implemented by the electronic device via a set of control permissions for a detected controlling device, based upon an identifier of the controlling device. A controlling device can be any electronic device having a processor, a memory, a display and a communication module. Enabling selective control of the display of an electronic device having a display, by a personal computer, enables the personal computer to operate as a dual screen personal computer.